Some description
Some description
Some description
Accepts the following message:
{}
Some description
Some description
Accepts the following message:
{
"t1": {
"thermal": {
"temperature": {}
}
},
"t2": {
"thermal": {
"temperature": {}
}
},
"t3": {
"thermal": {
"temperature": {}
}
},
"t4": {
"thermal": {
"temperature": {}
}
}
}
Numeric values representing heat level. Measured in specified units like Celsius, Fahrenheit, or Kelvin.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"temperature"
]
]
Numeric values representing heat level. Measured in specified units like Celsius, Fahrenheit, or Kelvin.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"temperature"
]
]
Numeric values representing heat level. Measured in specified units like Celsius, Fahrenheit, or Kelvin.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"temperature"
]
]
Numeric values representing heat level. Measured in specified units like Celsius, Fahrenheit, or Kelvin.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"temperature"
]
]
Parameters for identification, information and configuration of hardware devices.
Some description
Some description
Accepts the following message:
{
"linc": {
"dataplan": {
"mode": "platform",
"reporting_interval": 60
},
"label": "Main electrical panel"
}
}
Parameters for identification, information and configuration of hardware devices.
Some description
Some description
Accepts the following message:
{
"linc": {
"dataplan": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/device/data/linc/dataplan",
"fw_version": "v2.1.3",
"hw_version": "v1.0.3",
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/device/data/linc/label",
"model": "env_4ch"
},
"wifi": {
"mac_address": "00:1A:2B:3C:4D:5E"
}
}
Choice of data handling strategy for a Linc node, influencing both how the data is processed and the associated costs.
Some description
Some description
Accepts the following message:
platform
The frequency at which a Linc node sends data, determining how often updates or readings are provided.
Some description
Some description
Accepts the following message:
The software revision number associated with a Linc node, reflecting updates, enhancements, or fixes.
Some description
Some description
Accepts the following message:
v2.1.3
User-specified name or identifier for a Linc node, allowing for easy differentiation within a system or network.
Some description
Some description
Accepts the following message:
Main electrical panel
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
User-specified name or identifier for a channel, allowing for easy differentiation of circuits in a system or network.
Some description
Some description
Accepts the following message:
Kitchen
The phase designation (L1, L2, L3 or N) in an AC system indicates the specific limb of the three-phase system to which a circuit is connected.
Some description
Some description
Accepts the following message:
line_1
Signifies the direction of current flow in the circuit. Generally, in bidirectional circuits, positive polarity indicates current flow from source to load. Negative polarity signifies current flow from load to source. Essential for accurate energy accounting.
Some description
Some description
Accepts the following message:
forward
Specifies the maximum current a circuit can handle. Crucial for ensuring safe and efficient circuit operation.
Some description
Some description
Accepts the following message:
Specifies the model of current sensor installed for measurements.
Some description
Some description
Accepts the following message:
ct_30
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Full-load current is the maximum current a system or device draws when operating at full capacity. This user-specified value is usually provided by the system manufacturer.
Some description
Some description
Accepts the following message:
TDD (Total Demand Distortion) measures harmonic current as a percentage of full-load current. More stable and equipment-specific than THD-I, better for evaluating system performance.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"tdd"
]
]
Current RMS (Root Mean Square) is the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of current in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of current RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-I based on Fundamental frequency. Useful for targeting specific harmonics causing issues in a system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-I based on RMS. Shows distortion in current flow. High values can cause heating in conductors.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the current within individual cycles during a 1-second timeframe. In a 10A AC line, the nominal peak current may reach 14.14A.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Energy sent back to the grid. Can generate credits or offset costs.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Energy drawn from the grid. Directly impacts electricity bills.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total active energy produced minus consumed.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Apparent energy sent back to the grid. Rarely credited, but informs system's export capacity. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Apparent energy drawn from the grid. Can be a factor in demand or capacity charges. Typically measured in kVAh.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total apparent energy produced minus consumed. Useful for system capacity planning.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Reactive energy sent back to the grid. Not usually credited. May indicate over-compensation of power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"exported"
]
]
Reactive energy drawn from the grid to maintain magnetic fields in inductive loads. Could lead to power factor penalties.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"imported"
]
]
Total reactive energy produced minus consumed. Can indicate wasted power and potential system inefficiency.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"net"
]
]
Active power is the real power that does actual work, like turning a motor or powering a device. Measured in watts (W), it's the primary factor for energy billing.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"active"
]
]
Apparent power represents the total power flow in an AC circuit, combining active and reactive power. Measured in volt-amperes (VA), it's useful for sizing equipment and wiring but doesn't reflect real energy use.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"apparent"
]
]
Indicates the phase angle difference between current and voltage, affecting real power transfer. Ideal in purely resistive circuits, it may degrade in systems with inductive or capacitive elements, requiring phase-correcting equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"displacement"
]
]
Reflects the impact of harmonics on system efficiency. A poor distortion power factor can lead to overheating and damage to equipment, necessitating harmonic filters for correction.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"distortion"
]
]
The overall measure of electrical system efficiency, considering both displacement and distortion factors. A low total power factor may require infrastructure upgrades or power factor correction devices.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"total"
]
]
Reactive power doesn't do work but supports the magnetic and electric fields in AC systems. Measured in volt-amperes reactive (VAR), it's essential for system stability but can lead to inefficiencies.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"reactive"
]
]
The number of cycles per second in an alternating current (AC) system, measured in Hertz (Hz).
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"instantaneous"
]
]
The standard frequency at which the electrical grid is designed to operate, typically 50 Hz or 60 Hz in various regions.
Some description
Some description
Accepts the following message:
The continuous frequency range equally above and below the designated grid nominal frequency. A value of 500 mHz would imply a 49.5 to 50.5 Hz nominal range (for a 50 Hz system).
Some description
Some description
Accepts the following message:
Transient values in grid frequency at 200ms intervals correspond to 10 cycles in a 50 Hz system and 12 cycles in a 60 Hz system. These brief deviations are vital for electrical grid stability.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"transient"
]
]
Nominal voltage refers to the standard voltage level defined for single or three-phase systems, typically expressed in root mean square (RMS) terms. It represents the voltage that the system is designed to operate at under normal conditions.
Some description
Some description
Accepts the following message:
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"event"
]
]
Prescribed bounds for acceptable voltage variation. An event triggers on when voltage exceeds the upper and lower thresholds relative to the reference voltage. It triggers off when voltage returns to within hysteresis limits.
Some description
Some description
Accepts the following message:
{
"[property]": 123,
"lower_hysteresis": 95,
"lower_threshold": 90,
"reference": 230.2,
"upper_hysteresis": 105,
"upper_threshold": 110
}
Voltage RMS (Root Mean Square), the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of voltage in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of voltage RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-V based on fundamental frequency (typically 50 or 60Hz). Focuses on distortion from base AC frequency. Useful for filtering decisions.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-V based on RMS. Indicates quality of voltage. High values can affect sensitive equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the voltage within individual cycles during a 1-second timeframe. In a 230V AC line, the nominal peak voltage may reach 325 V.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"event"
]
]
Prescribed bounds for acceptable voltage variation. An event triggers on when voltage exceeds the upper and lower thresholds relative to the reference voltage. It triggers off when voltage returns to within hysteresis limits.
Some description
Some description
Accepts the following message:
{
"[property]": 123,
"lower_hysteresis": 95,
"lower_threshold": 90,
"reference": 230.2,
"upper_hysteresis": 105,
"upper_threshold": 110
}
Voltage RMS (Root Mean Square), the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of voltage in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of voltage RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-V based on fundamental frequency (typically 50 or 60Hz). Focuses on distortion from base AC frequency. Useful for filtering decisions.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-V based on RMS. Indicates quality of voltage. High values can affect sensitive equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the voltage within individual cycles during a 1-second timeframe. In a 230V AC line, the nominal peak voltage may reach 325 V.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Ratio of the peak value to the RMS value of a waveform. A pure sine wave has a crest factor of 1.414.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"crest_factor"
]
]
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"event"
]
]
Prescribed bounds for acceptable voltage variation. An event triggers on when voltage exceeds the upper and lower thresholds relative to the reference voltage. It triggers off when voltage returns to within hysteresis limits.
Some description
Some description
Accepts the following message:
{
"[property]": 123,
"lower_hysteresis": 95,
"lower_threshold": 90,
"reference": 230.2,
"upper_hysteresis": 105,
"upper_threshold": 110
}
Voltage RMS (Root Mean Square), the square root of the arithmetic mean of the squared values of a periodic waveform. It represents the effective value of voltage in an AC system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Representation of voltage RMS in the frequency domain, showing distribution across various frequency components.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"centroid",
"range",
"magnitude"
]
]
THD-V based on fundamental frequency (typically 50 or 60Hz). Focuses on distortion from base AC frequency. Useful for filtering decisions.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"fundamental"
]
]
THD-V based on RMS. Indicates quality of voltage. High values can affect sensitive equipment.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rms"
]
]
Maximum value of the voltage within individual cycles during a 1-second timeframe. In a 230V AC line, the nominal peak voltage may reach 325 V.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"waveform_peak"
]
]
Voltage Unbalance Factor (VUF) in a three-phase system quantifies the deviation among the RMS values of the three phases. It is calculated as the ratio of the maximum deviation from the average voltage to the average voltage itself, expressed as a percentage. Higher VUF values indicate a greater imbalance in the system.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"unbalance_factor"
]
]
Parameters related to electrical systems.
Some description
Some description
Accepts the following message:
{
"ac": {
"circuits": {
"1": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
},
"2": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
},
"3": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
},
"4": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
},
"5": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
},
"6": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
},
"7": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
},
"8": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
},
"9": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
},
"10": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
},
"11": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
},
"12": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
},
"13": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
},
"14": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
},
"15": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
},
"16": {
"config": {
"label": "Kitchen",
"phase": "line_1",
"polarity": "forward",
"rating": 12.5,
"sensor": "ct_30"
},
"current": {
"demand_distortion": {
"full_load_current": 12.5
}
}
}
},
"frequency": {
"nominal": 50000,
"nominal_range": 50.01
},
"voltage": {
"nominal": 400000,
"phases": {
"line_1": {
"dips_swells": {
"limits": {}
}
},
"line_2": {
"dips_swells": {
"limits": {}
}
},
"line_3": {
"dips_swells": {
"limits": {}
}
}
}
}
}
}
Parameters related to electrical systems.
Some description
Some description
Accepts the following message:
{
"ac": {
"circuits": {
"1": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/1/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/1/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/1/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/1/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/1/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/1/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
},
"2": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/2/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/2/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/2/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/2/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/2/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/2/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
},
"3": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/3/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/3/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/3/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/3/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/3/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/3/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
},
"4": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/4/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/4/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/4/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/4/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/4/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/4/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
},
"5": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/5/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/5/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/5/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/5/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/5/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/5/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
},
"6": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/6/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/6/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/6/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/6/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/6/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/6/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
},
"7": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/7/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/7/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/7/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/7/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/7/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/7/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
},
"8": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/8/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/8/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/8/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/8/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/8/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/8/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
},
"9": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/9/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/9/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/9/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/9/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/9/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/9/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
},
"10": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/10/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/10/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/10/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/10/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/10/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/10/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
},
"11": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/11/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/11/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/11/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/11/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/11/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/11/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
},
"12": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/12/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/12/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/12/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/12/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/12/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/12/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
},
"13": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/13/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/13/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/13/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/13/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/13/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/13/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
},
"14": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/14/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/14/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/14/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/14/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/14/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/14/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
},
"15": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/15/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/15/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/15/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/15/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/15/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/15/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
},
"16": {
"config": {
"label": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/16/config/label",
"phase": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/16/config/phase",
"polarity": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/16/config/polarity",
"rating": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/16/config/rating",
"sensor": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/16/config/sensor"
},
"current": {
"crest_factor": 1.41,
"demand_distortion": {
"full_load_current": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/circuits/16/current/demand_distortion/full_load_current",
"tdd": 4.2
},
"rms": 12.5,
"spectrum": [
{
"centroid": 100,
"magnitude": 12.5,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 12.5
},
"energy": {
"active": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"apparent": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
},
"reactive": {
"exported": 134.3,
"imported": 134.3,
"net": 187.4
}
},
"power": {
"active": 1482.6,
"apparent": 1739.4,
"power_factor": {
"displacement": 0.91,
"distortion": 0.91,
"total": 0.91
},
"reactive": 1482.6
}
}
},
"frequency": {
"instantaneous": 50.01,
"nominal": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/frequency/nominal",
"nominal_range": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/frequency/nominal_range",
"transient": {
"min": 50.01,
"std_dev": 50.01
}
},
"voltage": {
"nominal": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/voltage/nominal",
"phases": {
"line_1": {
"crest_factor": 1.41,
"dips_swells": {
"event": {
"duration": null,
"magnitude": 230.2,
"start_time": 0
},
"limits": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/voltage/phases/line_1/dips_swells/limits"
},
"rms": 230.2,
"spectrum": [
{
"centroid": 100,
"magnitude": 230.2,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 230.2
},
"line_2": {
"crest_factor": 1.41,
"dips_swells": {
"event": {
"duration": null,
"magnitude": 230.2,
"start_time": 0
},
"limits": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/voltage/phases/line_2/dips_swells/limits"
},
"rms": 230.2,
"spectrum": [
{
"centroid": 100,
"magnitude": 230.2,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 230.2
},
"line_3": {
"crest_factor": 1.41,
"dips_swells": {
"event": {
"duration": null,
"magnitude": 230.2,
"start_time": 0
},
"limits": "/d0c80c56-fd5f-4278-8b10-28959f4daf26/nodes/1004/electrical/data/ac/voltage/phases/line_3/dips_swells/limits"
},
"rms": 230.2,
"spectrum": [
{
"centroid": 100,
"magnitude": 230.2,
"range": 50.01
}
],
"thd": {
"fundamental": 12.7,
"rms": 4.2
},
"waveform_peak": 230.2
}
},
"unbalance_factor": 1.3
}
}
}
The ICCID (Integrated Circuit Card Identifier) is a unique serial number assigned to each SIM card used in mobile devices. Typically 19 to 20 digits long, it's used to identify the SIM internationally, helping operators and service providers manage their subscribers. The ICCID provides information about the card's origin, network, and other specific details.
Some description
Some description
Accepts the following message:
The ICCID (Integrated Circuit Card Identifier) is a unique serial number assigned to each SIM card used in mobile devices. Typically 19 to 20 digits long, it's used to identify the SIM internationally, helping operators and service providers manage their subscribers. The ICCID provides information about the card's origin, network, and other specific details.
string
The MCC (Mobile Country Code) is a three-digit number used to identify a mobile device's country of origin or the country of the cellular network it's operating in. It's a component of the IMSI (International Mobile Subscriber Identity) and is essential for international roaming, ensuring the device can connect to networks outside its home country.
Some description
Some description
Accepts the following message:
The MCC (Mobile Country Code) is a three-digit number used to identify a mobile device's country of origin or the country of the cellular network it's operating in. It's a component of the IMSI (International Mobile Subscriber Identity) and is essential for international roaming, ensuring the device can connect to networks outside its home country.
string
The MNC (Mobile Network Code) is a two or three-digit number used in conjunction with the Mobile Country Code (MCC) to identify a specific mobile network operator within a country. Together, the MCC and MNC form a unique identifier for cellular networks, allowing devices to connect to the correct local network and ensuring proper routing of communications, especially in international roaming scenarios.
Some description
Some description
Accepts the following message:
The MNC (Mobile Network Code) is a two or three-digit number used in conjunction with the Mobile Country Code (MCC) to identify a specific mobile network operator within a country. Together, the MCC and MNC form a unique identifier for cellular networks, allowing devices to connect to the correct local network and ensuring proper routing of communications, especially in international roaming scenarios.
string
The MSIN (Mobile Subscription Identification Number) is a unique number typically consisting of 9 to 10 digits, representing an individual subscriber in a mobile network. It's the last part of the IMSI (International Mobile Subscriber Identity) and, when combined with the MCC (Mobile Country Code) and MNC (Mobile Network Code), creates a unique identifier for each mobile user globally. MSIN ensures individual subscribers are distinguished within a specific network operator's service.
Some description
Some description
Accepts the following message:
The MSIN (Mobile Subscription Identification Number) is a unique number typically consisting of 9 to 10 digits, representing an individual subscriber in a mobile network. It's the last part of the IMSI (International Mobile Subscriber Identity) and, when combined with the MCC (Mobile Country Code) and MNC (Mobile Network Code), creates a unique identifier for each mobile user globally. MSIN ensures individual subscribers are distinguished within a specific network operator's service.
string
Cellular modes like Cat M1, Cat NB2 refer to different categories of 4G (LTE) and 5G technologies.
Some description
Some description
Accepts the following message:
Cellular modes like Cat M1, Cat NB2 refer to different categories of 4G (LTE) and 5G technologies.
cat_m1
The connection status refers to whether or not a connection is enabled.
Some description
Some description
Accepts the following message:
The connection status refers to whether or not a connection is enabled.
enabled
RSRP (Reference Signal Received Power) gauges the power level of specific LTE reference signals in dBm. Closer to -80 dBm signifies a strong signal, while figures around -100 dBm indicate weak ones. RSRP helps determine LTE cell coverage and connection robustness.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rsrp"
]
]
RSRQ (Reference Signal Received Quality) evaluates the quality of LTE reference signals by comparing the received power of a reference signal to the total received power. A value closer to -10 dB suggests superior signal quality, while values nearing -20 dB indicate poorer quality. RSRQ helps understand the LTE signal's relative quality in the context of surrounding interference.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rsrq"
]
]
RSSI (Relative Signal Strength Indicator) measures the power level of received signals in dBm. A value closer to 0, like -60 dBm, indicates a strong received signal, while a lower value, like -90 dBm, indicates a weaker one. Each 3 dBm increase indicates an approximate doubling in power. RSSI helps assess wireless network coverage and connection quality.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rssi"
]
]
SINR (Signal-to-Interference-plus-Noise Ratio) contrasts the power of a desired signal against the combined power of interference and noise, represented in dB. Higher values, like 20 dB, suggest a better signal quality, whereas values close to 0 dB suggest a compromised signal due to interference. SINR helps gauge LTE connection clarity.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"sinr"
]
]
Parameters related to connectivity and network protocols.
Some description
Some description
Accepts the following message:
{}
The connection status shows whether or not a device is currently online.
Some description
Some description
Accepts the following message:
online
Moving average of the device uptime in the past 6 hours.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"average_6h"
]
]
Parameters related to connectivity and network protocols.
Some description
Some description
Accepts the following message:
{
"connectivity": {
"status": "online",
"uptime": {
"average_6h": 97.2
}
},
"linc_mesh": {
"connection": {
"hop_count": 1,
"ip_address": "192.168.1.10",
"parent_node": "1009",
"status": "enabled"
},
"signal": {
"rssi": -62
}
},
"wifi": {
"connection": {
"ip_address": "192.168.1.10",
"status": "enabled"
},
"signal": {
"rssi": -62
}
}
}
Hop count in a mesh network refers to the number of intermediate nodes that data must pass through between its originating node and the root node with internet access. It serves as a metric to determine the path's length and potential latency. As the hop count increases, it can impact the overall bandwidth availability and network efficiency due to increased chances of congestion and interference.
Some description
Some description
Accepts the following message:
An IP (Internet Protocol) address is a unique numerical label assigned to devices for identification and location on a network, ensuring they can communicate with each other. It acts as a digital address, allowing data to be directed and received by the correct device on both local networks and the internet.
Some description
Some description
Accepts the following message:
192.168.1.10
Parent node in a mesh network refers to an immediate upstream node to which another node (typically referred to as the child node) is directly connected. The parent node helps the child node with tasks like routing data, establishing connectivity, or maintaining the network hierarchy within the mesh topology.
Some description
Some description
Accepts the following message:
1006
The connection status refers to whether or not a connection is enabled.
Some description
Some description
Accepts the following message:
enabled
RSSI (Relative Signal Strength Indicator) measures the power level of received signals in dBm. A value closer to 0, like -60 dBm, indicates a strong received signal, while a lower value, like -90 dBm, indicates a weaker one. Each 3 dBm increase indicates an approximate doubling in power. RSSI helps assess wireless network coverage and connection quality.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rssi"
]
]
An IP (Internet Protocol) address is a unique numerical label assigned to devices for identification and location on a network, ensuring they can communicate with each other. It acts as a digital address, allowing data to be directed and received by the correct device on both local networks and the internet.
Some description
Some description
Accepts the following message:
192.168.1.10
The connection status refers to whether or not a connection is enabled.
Some description
Some description
Accepts the following message:
enabled
RSSI (Relative Signal Strength Indicator) measures the power level of received signals in dBm. A value closer to 0, like -60 dBm, indicates a strong received signal, while a lower value, like -90 dBm, indicates a weaker one. Each 3 dBm increase indicates an approximate doubling in power. RSSI helps assess wireless network coverage and connection quality.
Some description
Some description
Accepts the following message:
[
[
"timestamp",
"rssi"
]
]
abc